Size is among the most important traits of any organism, yet the factors that control its evolution remain poorly understood. In this study, we investigate controls on the evolution of organismal size using a newly compiled database of nearly 25,000 foraminiferan species and subspecies spanning the past 400 million years. We find a transition in the pattern of foraminiferan size evolution from correlation with atmospheric pO2 during the Paleozoic (400–250 million years ago) to long-term stasis during the post-Paleozoic (250 million years ago to present). Thus, a dramatic shift in the evolutionary mode coincides with the most severe biotic catastrophe of the Phanerozoic (543 million years ago to present). Paleozoic tracking of pO2 was confin...
Present-day ecological communities and the deep-time fossil record both inform us about the processe...
Examples of evolution, extinction and homoplasy of the larger benthic foraminifera (LBF) occur throu...
ABSTRACT: Over 100 cosmopolitan species of deep-sea benthic foraminifera (Extinction Group, Ext. Gp)...
Size is among the most important traits of any organism, yet the factors that control its evolution ...
Size is among the most important traits of any organism, yet the factors that control its evolution ...
One of the best-recognized patterns in the evolution of organismal size is the tendency for mean and...
One of the best-recognized patterns in the evolution of organismal size is the tendency for mean and...
The final 10 Myr of the Paleozoic saw two of the biggest biological crises in Earth history: the mid...
Atmospheric hyperoxia, with pO2 in excess of 30%, has long been hypothesized to account for late Pal...
Geographic gradients in body size within and among living species are commonly used to identify cont...
The Earth is currently experiencing rates of environmental change unprecedented in the last 66 milli...
The iterative evolutionary radiation of planktic foraminifers is a well-documented macroevolutionary...
Foraminifera are marine protists that evolved and diversified throughout the Phanerozoic Eon. These...
Present-day ecological communities and the deep-time fossil record both inform us about the processe...
Examples of evolution, extinction and homoplasy of the larger benthic foraminifera (LBF) occur throu...
ABSTRACT: Over 100 cosmopolitan species of deep-sea benthic foraminifera (Extinction Group, Ext. Gp)...
Size is among the most important traits of any organism, yet the factors that control its evolution ...
Size is among the most important traits of any organism, yet the factors that control its evolution ...
One of the best-recognized patterns in the evolution of organismal size is the tendency for mean and...
One of the best-recognized patterns in the evolution of organismal size is the tendency for mean and...
The final 10 Myr of the Paleozoic saw two of the biggest biological crises in Earth history: the mid...
Atmospheric hyperoxia, with pO2 in excess of 30%, has long been hypothesized to account for late Pal...
Geographic gradients in body size within and among living species are commonly used to identify cont...
The Earth is currently experiencing rates of environmental change unprecedented in the last 66 milli...
The iterative evolutionary radiation of planktic foraminifers is a well-documented macroevolutionary...
Foraminifera are marine protists that evolved and diversified throughout the Phanerozoic Eon. These...
Present-day ecological communities and the deep-time fossil record both inform us about the processe...
Examples of evolution, extinction and homoplasy of the larger benthic foraminifera (LBF) occur throu...
ABSTRACT: Over 100 cosmopolitan species of deep-sea benthic foraminifera (Extinction Group, Ext. Gp)...